Search Results for tensile testing

Fig. 7 Dynamic tensile testing results for Q&P 980 More

Fig. 4 Texture evolution due to tensile testing of magnesium alloy AZ31B rolled sheet to a strain of ∼0.11; comparison between model and experiment. Source: Ref 40 More

Fig. 5 Results of tensile testing of 6013-T4 that had been welded and postweld aged for laser beam welds (LBW) and laser stir welds (LSW) More

Fig. 27 Sheet-metal specimen orientations for tensile testing. RD, rolling direction; TD, transverse direction More

Fig. 13 Load capabilities of different high loading rate tensile testing equipment More

Fig. 14 High-loading-rate tensile testing machine (12 MN capacity) More

Fig. 26 Example of a frictional, face-loaded grip for tensile testing of continuous-fiber-reinforced composites. Source: Ref 109 More

Fig. 15 Principle of high-rate tensile testing with flywheel setup More

Fig. 11 Loading train for high-temperature tensile testing More

Fig. 12 Correlation between shear punch and uniaxial tensile testing across a range of metallic materials. (a) Shear yield vs. tensile yield strength. (b) Ultimate shear strength vs. ultimate tensile strength. Adapted from Ref 54 – 56 More

Fig. 13 Summary of the small ring tensile testing method, showing (a) a schematic of the loading arrangement, (b) a Tinius-Olsen H25KS uniaxial test frame with modified conventional uniaxial specimen (loading fixtures) that accepts small ring specimens, and (c) an example small ring tensile More

Fig. 20 A bend test eliminates the grip problem in tensile testing ceramics and can be used to measure the material modulus of rupture ( Eq 3 ). Source: Ref 4 More

Fig. 43 Fracture surfaces resulting from tensile testing of a TiAl-Nb-Mo alloy in the following conditions: (a) as-cast, 20 °C (70 °F), (b) as-cast, 800 °C (1470 °F), (c) as-cast, 900 °C (1650 °F), (d) as-extruded, 20 °C (70 °F), (e) as-extruded, 800 °C (1470 °F), and (f) as-extruded, 900 °C More

Fig. 6 Immersion of tensile test specimens followed by tensile strength testing More

Fig. 6 Correlation of small punch tensile test and tensile strength data of various conventional and additive manufacturing (AM) materials. Adapted from Ref 25 More

Fig. 5 Fracture morphology of small punch tensile test samples tested with the layering direction (a) parallel to and (b) perpendicular to the loading direction. Source: Ref 13 More

Fig. 6 Impact test methods exhibiting various states of stress. (a) Tensile test—uniaxial stress state. (b) Dynatup test—biaxial stress state. (c) Notch Izod test—triaxial stress state. (d) Competing failure modes More

Fig. 23 Initiation of fracture in a tensile-test specimen. Note that the fracture initiated at the center of the specimen 4.75 × More

Fig. 4 Surface of a room-temperature tensile-test fracture in a specimen taken from an ingot prepared by adding Fe 2 O 3 to pure iron in a vacuum melt equilibrated at 1550 °C (2820 °F) in a silica crucible. The ingot contained 0.07% O in the form of FeO. The fracture surface contains dimples More

Fig. 17 Surface of tensile-test fracture in specimen of low-carbon, high-oxygen iron that was broken at room temperature. Many of the equiaxed dimples contain spheroidal particles of FeO. The rectangle marks the area shown at higher magnification in Fig. 18 and 19 . SEM, 500× More